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ELECTROCHEMICAL APPARATUS AND ELECTRONIC APPARATUS

Resumen de: US20260066288A1

An electrochemical apparatus includes a positive electrode and a non-aqueous electrolyte, where the positive electrode includes a positive electrode material layer disposed on at least one surface of a positive electrode current collector, the positive electrode material layer includes a lithium-containing transition metal composite oxide, and the lithium-containing transition metal composite oxide includes LixNazCo1-yMyO2, where 0.6

LITHIUM-ION SECONDARY BATTERY

Resumen de: US20260066276A1

A lithium-ion secondary battery includes a positive electrode current collector, which is provided with N positive electrode tabs, N≥2, and at least a part of a functional surface of the positive electrode current collector is provided with a positive electrode functional layer including a positive electrode active material. The positive electrode active material includes a monocrystal ternary material with a chemical composition of LipMem(NixCoyMnz)O2 and a polycrystal ternary material with a chemical composition of LiqMen(NiaCobMnc)O2, and the lithium-ion secondary battery satisfies 0.2≤(C×N)/W≤7.5, where C is the molar content of nickel of the positive electrode active material; and W is the width of the positive electrode tabs.

ULTRAHIGH-MOLECULAR-WEIGHT POLYOLEFIN SEPARATOR AND METHOD FOR PREPARING SAME

Resumen de: US20260062506A1

The present application provides an ultrahigh-molecular-weight polyolefin separator, including ultrahigh-molecular-weight polyethylene. ultrahigh-molecular-weight polyethylene has an average molecular weight of ≥1 million. The ultrahigh-molecular-weight polyolefin separator has a median aperture of 0.04 μm-1 μm, the maximum aperture of no more than 1.2 μm, and a puncture strength of ≥50 gf. Further, the present application further provides a method for preparing an ultrahigh-molecular-weight polyolefin separator. Because the polyolefin separator is safer than an ordinary non-woven separator, and has higher ionic conductivity and larger median aperture, the problems that an ordinary non-woven separator of a lithium-ion battery, although having a high lithium-ion passage rate, has a high degree of danger, and is prone to cause a short circuit of the battery are exactly solved.

Composite Sodium Ferrous Sulfate Cathode Material, and Preparation Method and Application Thereof

Resumen de: US20260062310A1

The present disclosure belongs to the field of sodium batteries. Provided are a composite sodium ferrous sulfate cathode material, and a preparation method and application thereof. The composite sodium ferrous sulfate cathode material includes a core. A chemical formula of the core is NaxMyFez(PO4)k(SO4)(0.4-0.6) xOt, where M includes at least one of manganese, vanadium, or titanium, 16≤x≤17, y=1, 4≤z≤5, 2≤k≤2.6, and y+z−0.1x−1.5k≤t≤y+z+0.1x−1.5k. According to the present disclosure, sulfate decomposition is reduced, the material performance of the composite sodium ferrous sulfate cathode material is improved, and a secondary battery using the composite sodium ferrous sulfate cathode material is improved in terms of performance such as cycling performance.

BATTERY CELL, BATTERY, AND ELECTRIC APPARATUS

Resumen de: AU2024316784A1

A battery cell, a battery, and an electric apparatus. The battery cell comprises an electrode assembly and an outer package, wherein the electrode assembly comprises a positive electrode sheet, the positive electrode sheet comprising a positive electrode current collector and a positive electrode film layer disposed on at least one surface of the positive electrode current collector, the positive electrode film layer comprising a positive electrode active material, and the positive electrode active material comprising a layered lithium-containing transition metal oxide having a single crystal morphology; the length of the battery cell is denoted as a and the width of the battery cell is denoted as b, a being greater than or equal to 180 mm, and a/b being 2.0-10.5. The battery thus has both high energy density and long cycle life.

Elektrolyt-Zusammensetzung, Batterie und Vorrichtung mit dieser Zusammensetzung

Resumen de: DE102024130671A1

Eine Elektrolytzusammensetzung für Batterien wird bereitgestellt. Die Elektrolytzusammensetzung umfasst ein Lösungsmittel, das ein oder mehrere fluorierte Carbonate umfasst. Die Elektrolytzusammensetzung umfasst außerdem ein Salz auf Lithiumbasis und ein Lithium(oxalato)boratsalz. Außerdem wird eine Batterie bereitgestellt, die die Elektrolytzusammensetzung umfasst. Die Batterie umfasst eine Anode, eine Kathode auf Nickelbasis und die Elektrolytzusammensetzung, die zwischen der Anode und der Kathode auf Nickelbasis angeordnet ist.

LITHIUM SUPPLEMENT AND PREPARATION METHOD THEREOF, CATHODE SLURRY, AND BATTERY

Resumen de: US20260062308A1

A lithium supplement includes a core and a coating layer located on at least part of a surface of the core. The core satisfies a chemical formula LixM1yM21−yO6, where: 6≤x≤8; 0

POSITIVE ELECTRODE ACTIVE MATERIAL, PREPARATION METHOD THEREOF, BATTERY CELL, AND POWER CONSUMING APPARATUS

Resumen de: US20260062298A1

The present application discloses a positive electrode active material, a preparation method thereof, a battery cell, and a power consuming apparatus. The positive electrode active material includes a lithium-containing phosphate, a charge capacity per gram of the positive electrode active material at 25° C. is denoted as C1, the charge capacity per gram of the positive electrode active material at 60° C. is denoted as C2, both units are mAh/g, and C2/C1≥1.020. The positive electrode active material provided in the present application can improve a cycle performance of a battery.

METHOD FOR PREPARING POSITIVE ELECTRODE MATERIAL AND ENERGY STORAGE BATTERY

Resumen de: US20260062311A1

A method for preparing a positive electrode material and an energy storage battery are provided. The method includes: preparing an Fe-MOF, including: dispersing a first iron source in a solvent, adding the cyanamide organic ligands into the solvent to perform reflux reaction to obtain a reaction solution, and performing cooling, filtering, and cleaning on the reaction solution to obtain the Fe-MOF; grinding and blending the Fe-MOF with a second iron source, a lithium source, and a phosphorus source to obtain a premix; and performing a sintering treatment on the premix under an atmosphere of an inert gas to obtain a composite lithium iron phosphate positive electrode material. The composite lithium iron phosphate positive electrode material includes lithium iron phosphate particles and carbon nanotubes, the lithium iron phosphate particles are attached to a surface of the carbon nanotubes, and there is iron wrapped by each of the carbon nanotubes.

LITHIUM CARBONATE AND USES THEREOF

Resumen de: US20260062304A1

Exemplary lithium carbonate (Li2CO3) particles may comprise at least 98% by weight (wt %) lithium carbonate. Exemplary lithium carbonate (Li2CO3) particles may have a Dv (50) between 0.08 μm and 0.43 μm. Exemplary lithium carbonate (Li2CO3) particles may have a Dn (50) between 0.015 μm and 0.5 μm. Exemplary lithium carbonate (Li2CO3) particles may have a BET surface area between 10 m2/g and 25 m2/g. Exemplary batteries may comprise a cathode, an anode, a separator sheet, and a non-aqueous electrolyte. Exemplary cathodes may have a cathode active material layer including a cathode active material and a plurality of lithium carbonate (Li2CO3) particles.

Modular power battery system and new energy device

Resumen de: AU2024266813A1

The present invention provides a modular power battery system, comprising at least one modular power battery unit, wherein each of the modular power battery units includes: a battery pack module (1); a cooling unit module (2) for cooling and heating the battery pack module (1); and a BDU module (3) electrically connected with the battery pack module (1) to control the electrical connection and disconnection between the battery pack module (3) and an electrical appliance. The present invention may satisfy different charge demands of a whole machine of various new energy engineering machinery. The present invention provides a modular power battery system, comprising at least one modular power battery unit, wherein each of the modular power battery units includes: a battery pack module (1); a cooling unit module (2) for cooling and heating the battery pack module (1); and a BDU module (3) electrically connected with the battery pack module (1) to control the electrical connection and disconnection between the battery pack module (3) and an electrical appliance. The present invention may satisfy different charge demands of a whole machine of various new energy engineering machinery. ov o v Fig. 1 217 203 13-. ' — _6 \\, ?=v '•' ' fn ■i!! i ■ 4v'^lJ18 i-Afeja s\ 58\ \ . \UsV-li^-1 ' 17 ;l i i/ \ 16 v 22I 11\ 10 3 13 7 20 21 25 24 tn = 10 11 16 22 23 18 1 17 8 5 9 Fig. 1 ov o v

HEATED APPAREL SYSTEM COMPRISING AT LEAST ONE ARTICLE OF HEATED APPAREL WITH A HEATER, A HEATER CONTROLLER AND AN ELECTRICAL POWER SUPPLY

Resumen de: AU2026201126A1

Abstract Disclosed embodiments describe approaches for warming a portion of a human body. The warming is based on heated apparel (e.g., a heated glove) coupled to an electrical power supply through a heater controller. The heated apparel (e.g., a glove) can be fabricated using a narrow knit electronic textile. A heater can be constructed from the narrow knit electronic textile. The heater is coupled to the heated apparel (e.g., a glove) for warming a portion (e.g., a hand) of a human body, wherein heating by the heater is accomplished using electrical power from the electrical power supply. The heater is controlled by a heater controller which is interposed between the heater and the electrical power supply.

APPARATUS FOR MITIGATION OF THERMAL EVENT PROPAGATION FOR BATTERY SYSTEMS

Resumen de: AU2026201060A1

Apparatus for mitigating propagation of thermal events between battery cells within a battery module assembly (10) is provided. The apparatus comprises one or more of several features that function to prevent a runaway thermal event within one battery cell (48) from triggering a fire or other thermal event within another battery cell within the 5 battery module assembly (10). The apparatus may comprise one or more of: (i) a compressive wrap (88) applied to a battery cell (48); (ii) a layered barrier material (104) positioned between adjacent battery cells (48); (iii) silicone rubber supports (94) positioned adjacent the battery terminals (62, 64), (iv) a light-weight, fire-resistant housing composite panel, and (v) rupturable diaphragms (36) configured to vent gases and ejecta from a 10 battery cell undergoing a thermal event. eb e b

AEROSOL-GENERATING DEVICE

Resumen de: US20260060328A1

An aerosol-generating device is provided, including: control circuitry and an energy storage configured to supply electrical energy to the control circuitry for generating aerosol from an aerosol-generating article; the control circuitry being configured to: determine a storage status of the energy storage indicative of at least one of an amount of electrical energy currently stored and currently storable in the energy storage, evaluate the determined storage status with respect to at least one threshold value correlating with a threshold energy required for performing a main heating function of the device for heating the article at or above a predetermined heating temperature to generate aerosol in at least one usage session, and for performing at least one auxiliary device function of the device different than the main heating function, and enable or disable, based on the evaluation, at least one of the main heating function and the auxiliary device function.

BATTERY POWERED GARDEN SHREDDER

Resumen de: AU2026201156A1

Systems and methods providing battery powered garden shredder (100) configurations in which one or more batteries (151a, 152a, 151b) may be utilized to power a motor (340) of a battery powered garden shredder (100) implementation are described. A shredder powerhead assembly (110a, 110b) may include a battery area (115a, 115b) configured to receive and securely hold one or more batteries (151a, 152a, 151b), wherein the battery area (115a, 115b) may be recessed and/or otherwise configured to provide protection to the batteries (151a, 152a, 151b). The battery area (115a, 115b) may be variously configured to accommodating and protecting components such as the batteries (151a, 152a, 151b), battery docking interfaces (321a, 322a, 321b), safety keys, safety key interfaces, etc. The battery area may comprise a cover structure (160, 560) for providing protection. The shredder powerhead assembly (110a, 110b) may be held in juxtaposition with a bin (130) by a support structure (120), embodiments of which provide a pivotal interface (124). A motor cowl (170) configured for ventilating various components while discouraging infiltration of debris into an internal area containing the components may also be provided. eb e b

Optically transparent polymer electrolyte films

Resumen de: AU2026201018A1

Provided are electrolyte films comprising a polymer layer; an electrolyte within the polymer layer, wherein the electrolyte comprises a salt and a plasticizer; and wherein an Ra between the plasticizer and the polymer layer is less than about 3.79. eb e b

Filter-Trockner-Einrichtung und Immersionskühlsystem für ein elektrisch betriebenes Fahrzeug

Resumen de: DE102024124501A1

Die vorliegende Erfindung betrifft eine Filter-Trockner-Einrichtung (1) zum Filtrieren und Trocknen eines Flüssigkeitsstroms (2), die ein Gehäuse (4) mit einem Gehäusevolumen (5) aufweist. Wesentlich ist, dass in dem Gehäusevolumen (5) ein von dem Flüssigkeitsstrom (2) radial durchströmbares Filterelement (8) zum Abscheiden von Partikeln aus dem Flüssigkeitsstrom (2) mit einem ersten spezifischen Durchströmungswiderstand für den Flüssigkeitsstrom (2) und ein von dem Flüssigkeitsstrom (2) radial durchströmbares Trocknerelement (9) zum Absorbieren von freiem Wasser aus dem Flüssigkeitsstrom (2) mit einem zweiten spezifischen Durchströmungswiderstand für den Flüssigkeitsstrom (2) angeordnet sind, wobei das Filterelement (8) und das Trocknerelement (9) strömungstechnisch parallel geschaltet sind. Um einen günstigen Durchströmungswiderstand der Filter-Trockner-Einrichtung zu ermöglichen ist vorgesehen, dass der zweite spezifische Durchströmungswiderstand größer oder gleich dem ersten spezifischen Durchströmungswiderstand ist und dass das Trocknerelement (9) kleiner dimensioniert ist als das Filterelement (8). Die Erfindung betrifft weiterhin ein Immersionskühlsystem für ein elektrisch betriebenes Fahrzeug mit zumindest einer solchen Filter-Trockner-Einrichtung (1).

SECONDARY BATTERY AND ELECTRONIC DEVICE

Resumen de: WO2026044639A1

The present application provides a secondary battery and an electronic device. An electrolyte comprises a salt consisting of an anion and a cation as shown in formula I and a compound of formula II. M1 is selected from element B or element Al. R1, R2, R3, and R4 are each independently selected from C1-C8 alkyl in which at least some hydrogen atoms are substituted by fluorine, C6-C20 aryl in which at least some hydrogen atoms are substituted by fluorine, C7-C22 aralkyl in which at least some hydrogen atoms are substituted by fluorine, C7-C20 alkaryl in which at least some hydrogen atoms are substituted by fluorine, C7-C20 ether bond-containing alkaryl in which at least some hydrogen atoms are substituted by fluorine, or C2-C10 ether bond-containing alkyl in which at least some hydrogen atoms are substituted by fluorine. R is selected from fluorine-substituted or unsubstituted C1-C5 alkyl, or amino substituted by C1-C5 alkyl. Rf is selected from a fluorine atom or trifluoromethyl. The cation comprises one of Li+, Na+, K+, Mg2+, Ca2+, and Zn2+. The electrolyte satisfies the described features, and can improve the cycle performance and the low-temperature discharge performance of the secondary battery.

LITHIUM PRODUCTION COUPLED TO ACID AND BASE PRODUCTION

Resumen de: US20260062305A1

Systems and methods for obtaining lithium-containing materials from liquid streams are generally described. In some instances, aqueous streams are treated with a lithium selective agent prior to and/or following electrolysis of the stream to produce basic species such as hydroxide ions. In some cases, the lithium selective agent is a solids-forming agent such as a precipitant (e.g., phosphoric acid/phosphate) or a solid sorbent (e.g., aluminum hydroxide). The electrogenerated basic species may induce carbon dioxide capture to form carbonate and/or bicarbonate anions. Coupling of the electrolytic processes and/or carbon dioxide capture processes to the lithium selective separation processes may promote efficient generation of value-added lithium-containing materials such as lithium hydroxide and/or lithium carbonate. Some embodiments involve the electrolytic and/or thermal regeneration of the lithium selective agent, and/or the recycling of electrogenerated acidic species, which can also contribute to an efficient, cost-effective system for obtaining lithium-containing materials.

MASS PRODUCTION METHOD FOR HIGH-PURITY LITHIUM SULFIDE USING INLINE-MIXER

Resumen de: US20260062293A1

When producing lithium sulfide by a reaction between a lithium raw material and hydrogen sulfide, the reaction is performed under relatively mild conditions compared to the conventional technology, so frequent repairs or replacements due to corrosion and breakdown of reactors and piping are not required, thereby improving the economic efficiency of the process. Since unreacted hydrogen sulfide and a solvent from which moisture has been removed are reused, process costs are reduced so that economic feasibility in mass production is ensured. Furthermore, moisture and water vapor generated in a lithium sulfide production reaction are effectively removed to prevent a reverse reaction into lithium hydroxide and promote a forward reaction so that high-quality lithium sulfide can be produced with high purity and high yield. In addition, particle size may be controlled in the micrometer range without a separate crushing space or crushing stage, thereby providing excellent convenience and mass production.

MASS PRODUCTION METHOD FOR HIGH-PURITY LITHIUM SULFIDE USING HIGH SPEED STIRRING

Resumen de: US20260062292A1

When producing lithium sulfide by a reaction between a lithium raw material and hydrogen sulfide, the reaction is performed under relatively mild conditions compared to the conventional technology, so frequent repairs or replacements due to corrosion and breakdown of reactors and piping are not required, thereby improving the economic efficiency of the process. Since unreacted hydrogen sulfide and a solvent from which moisture has been removed are reused, process costs are reduced so that economic feasibility in mass production is ensured. Furthermore, moisture and water vapor generated in a lithium sulfide production reaction are effectively removed to prevent a reverse reaction into lithium hydroxide and promote a forward reaction so that high-quality lithium sulfide can be produced with high purity and high yield. In addition, particle size may be controlled in the micrometer range without a separate crushing space or crushing stage, thereby providing excellent convenience and mass production.

MASS PRODUCTION METHOD FOR HIGH-PURITY LITHIUM SULFIDE USING INERT GAS BUBBLING

Resumen de: US20260062291A1

The present invention relates to a method of producing lithium sulfide, and according to the present invention, when producing lithium sulfide by a reaction between a lithium raw material and hydrogen sulfide, the reaction is performed under relatively mild conditions compared to the conventional technology, so frequent repairs or replacements due to corrosion and breakdown of reactors and piping are not required, thereby improving the economic efficiency of the process. In addition, since unreacted hydrogen sulfide and a solvent from which moisture has been removed are reused, process costs are reduced so that economic feasibility in mass production is ensured. Furthermore, moisture and water vapor generated in a lithium sulfide production reaction are effectively removed to prevent a reverse reaction into lithium hydroxide and promote a forward reaction so that high-quality lithium sulfide can be produced with high purity and high yield.

CYLINDRICAL BATTERY SORTING SYSTEM

Resumen de: US20260066371A1

A cylindrical battery sorting system includes a host, a conveying device, a sorting device, an acceleration device, and a camera device. The conveying device is electrically connected to the host, includes rollers disposed side by side, and has a feeding area, an acceleration area, and a sorting area. The sorting device is electrically connected to the host and disposed corresponding to the sorting area. The acceleration device is electrically connected to the host and disposed in the acceleration area. The camera device is electrically connected to the host and disposed corresponding to the acceleration area. When a battery enters a capturing area, the camera device moves synchronously with rolling of the battery to capture an image of the rolling battery, and transmit the image back to the host to determine type of the battery. The sorting device places the battery into a corresponding recycling area according to the captured image.

Rapid dry microwave synthesis of argyrodite solid electrolytes

Resumen de: US20260066343A1

Described herein are methods for the generation of argyrodite solid electrodes utilizing a dry microwave process, removing the necessity of additional mechanical processing, solvent removal and high temperature annealing. The described methods reduce both time and cost for generating argyrodite materials, while maintaining phase purity and electrochemical properties that make argyrodites desirable as electrolytes. The provided methods and materials are versatile and can be used with a variety of argyrodite compositions, including Li7−yPS6−yXy (X═Cl, Br, I).

BATTERY MANAGEMENT DEVICE, ENERGY STORAGE DEVICE INCLUDING SAME AND CONTROLLING METHOD OF ENERGY STORAGE DEVICE

Nº publicación: US20260066369A1 05/03/2026

Solicitante:

SAMSUNG SDI CO LTD [KR]
Samsung SDI Co., Ltd

Resumen de: US20260066369A1

Disclosed is a battery management device including a detection circuit configured to detect a state of a battery and a control circuit configured to monitor the state of the battery and control functions associated with the battery, wherein the control circuit is configured to transmit a turn-on signal at a predetermined time interval to each of a first switch and a second switch that electrically connect or disconnect the battery and a power supply in response to a start signal associated with charging or discharging of the battery.